2200℃ Vacuum Hot Press Sintering Furnace for SIC Powder Metallurgy

Description:

• This 2200℃ high-temperature vacuum hot press furnace is a batch-type resistance heating equipment, with high level temperature uniformity to gain better treatment result, engineered for precise and efficient material processing. It integrates advanced electric resistance heating technology with a sealed vacuum environment, ensuring stable high-temperature condition.
• Designed with industrial-grade durability, the furnace features a robust structure and intelligent temperature control system—allowing for accurate regulation of heating rates, holding times, and cooling processes. This ensures uniform heating of workpieces.
• Ideal for large-scale or small-batch production, it supports the processing of various components (including boron carbide powder, ceramic powder, and tungsten powder). Its user-friendly operation interface and safety protection mechanisms (such as over-temperature alarm and vacuum leakage detection etc.) make it suitable for both laboratory R&D and industrial manufacturing scenarios.

  

Application:

• Ceramic Materials: Boron carbide powder, silicon carbide powder, alumina powder, silicon nitride powder, and other advanced ceramic components.
• Hard Alloys & Metals: Processing of tungsten carbide powder, carbide alloys powder, metal billets, and powder metallurgy products (e.g., neodymium magnets, NdFe14B).

  

Specification:

Furnace Configuration:

• High-Temperature Capability: Reaches up to 2300℃.
• Vacuum & Resistance Heating: Vacuum environment prevents material oxidation.
• Precise Control: Equipped with FP93 Japanese Shimaden High-Precise Temperature Control System, ensuring stable sintering processes and consistent product quality.
• Versatility: Compatible with a wide range of materials (carbon,ceramics, alloys, c/c,special powders), meeting diverse production needs.
• Safety & Reliability: Equipped with short circuit, over pressure, over-temperature, over current, water shortage, and other protection mechanisms for safe operation.